both must be proptional
The side lengths of corresponding sides must all be in the same proportion to each other. So, for example, if you have a quadrilateral ABCD and you want to prove that it is similar to WXYZ, then you must show that all the side ratios are equal to each other. That is: AB/WX = BC/XY = CD/YZ = DA/ZW
when it comes to similar figures or angles you must know that they are the same shape but not the same size.
They must be similar, with scale factor = 1.
koe
x times xb thats the answer
Corresponding
The side lengths of corresponding sides must all be in the same proportion to each other. So, for example, if you have a quadrilateral ABCD and you want to prove that it is similar to WXYZ, then you must show that all the side ratios are equal to each other. That is: AB/WX = BC/XY = CD/YZ = DA/ZW
when it comes to similar figures or angles you must know that they are the same shape but not the same size.
They must be similar, with scale factor = 1.
No. Two figures are similar if they have same shape, and all the angles are equal; but they can have the sides of different sizes. I mean, similar figures may have different sizes, but must have the same shape.
koe
They must be the same.
x times xb thats the answer
Corresponding angles of similar figures are congruent because similarity in geometry implies that the shapes have the same shape but may differ in size. When two figures are similar, their corresponding sides are in proportion, which leads to their angles being equal. This relationship ensures that the angles maintain their measures regardless of the scale of the figures, thus confirming that corresponding angles must be congruent.
the number before x and y must be the same ex. (2x,2y) (.5x,.5y)
The three requirements to be similar figures are: Corresponding angles must be congruent (equal in measure). Corresponding sides are in proportion; this means that the ratio of corresponding side lengths is the same for all sides. The figures have the same shape, but can be of different sizes.
A polyhedron is a generic term for 3 dimensional objects which are bounded by polygonal faces. They can have 4 or more vertices, 6 or more edges and 4 or more faces. The numbers of vertices (V), edges (E) and faces (F) must also satisfy the Euler characteristic: F + V = E + 2.